Research in Motion Corporation

Blackberry Corporation

Christie Digital Systems Usa, Inc.

James Alexander Robinson

Marc A Drader

Robert James Lowles

Michael Lorne Purdy

Bergen Albert Fletcher

Jerry Mailloux

Perry Jarmuszewski

Lizhong Zhu

Michael Stephen Corrigan

George Soliman Mankaruse

Liviu George

Jacek S Idzik

Ken Wu

Amit Pal Singh

Conrad Aleksander Kreek

Jason Tyler Griffin

Andrew Douglas Bocking

Robert W Phillips

Antanas Matthew Broga

Cornel Mercea

Kevin R Moule

Derek Scott

Dale K Brubacher-Cressman

Nick Wasilka

Bruce Edward Winter

Marc Lemieux

Ahmed Hashi

Ian James Fraser

Mihal Lazaridis

Peter Mankowski

David James Mak-Fan

Derek Solven

Arnett Ryan Weber

Alexander Kornilovsky

Kuo-Feng Tong

Yun Seok Choi

Premal Parekh

John Edward Dolson

Thomas James Crugnale

Jeffery John Paul Dippel

Christopher Ying Wai Ho

Kevin Paul Timmerman

Nikesh Parsotam

Glover Ruiz Prieto

Andrew Dewi Williams

Alex Kornilovsky

Jeffrey John Paul Dippel

Derek Raymond Solven

Bruce Winter

Kevin Moule

Michael Lane Purdy

Bergen Fletcher

A system and method for automatic alignment and projection mapping are provided. A projector and at least two cameras are mounted with fields of view that overlap a projection area on a three-dimensional environment. A computing device: controls the projector to project structured light patterns that uniquely illuminate portions of the environment; acquires images of the patterns from the cameras; generates a two-dimensional mapping of the portions between projector and camera space and by processing the images and correlated patterns; generates a cloud of points representing the environment using the mapping and camera positions; determines a projector location, orientation and lens characteristics from the cloud; positions a virtual camera relative to a virtual three-dimensional environment, corresponding to the environment, parameters of the virtual camera respectively matching parameters of the projector; and, controls the projector to project based on a virtual location, orientation and characteristics of the virtual camera.

System and method for automatic alignment and projection mapping

A projector and at least two cameras are mounted with fields of view that overlap a projection area on a three-dimensional environment. A computing device: controls the projector to project structured light patterns that uniquely illuminate portions of the environment; acquires images of the patterns from the cameras; generates a two-dimensional mapping of the portions between projector and camera space and by processing the images and correlated patterns; generates a cloud of points representing the environment using the mapping and camera positions; determines a projector location, orientation and lens characteristics from the cloud; positions a virtual camera relative to a virtual three-dimensional environment, corresponding to the environment, parameters of the virtual camera respectively matching parameters of the projector; and, controls the projector to project based on a virtual location, orientation and characteristics of the virtual camera.

A mobile wireless communications device includes a housing and circuit board carried by the housing and includes radio frequency (RF) circuitry and a processor carried by the circuit board and operative with each other. A display connector for an LCD connector is mounted on the circuit board and adapted to be connected to a display. Display connection lines are carried by the circuit board and interconnect the display connector and processor for carrying signals from the processor to the display connector and a connected display. Filters are carried by the circuit board and connected to the display connection lines and reduce any interfering energy from the processor and display.

Mobile wireless communications device with reduced interfering energy from the display and related methods

A method includes applying a first plurality of pulses to scanning electrodes during a first scan to detect touches on a touch-sensitive display, receiving an indication to scan in a reduced power condition, and when in the reduced power condition, applying a second plurality of pulses to scanning electrodes during a second scan to detect touches on the touch-sensitive display, wherein the second plurality of pulses comprises fewer pulses than the first plurality of pulses.

Electronic device and method of detecting touches on a touch-sensitive display

An improved mobile electronic device and camera provide an improved auto white balance system where constraints can be imposed the correlated color temperature (CCT) that is employed by the auto white balance system. For instance, if a distance between a subject and the camera is determined to exceed a threshold for closeness, the CCT can be constrained so that it is above a preset CCT that corresponds with sunrise or sunset. Other distance thresholds and the content of an image, as well as the brightness of the image, can be further employed in determining the CCT to employ.

Mobile electronic device having camera with improved auto white balance

A method, system and apparatus for dynamically monitoring and calibrating display tiles are provided. The apparatus comprises: an array of light emitting devices; one or more light emitting devices paired with light emitting devices of the array; one or more sensors configured to detect an optical characteristic and/or an electrical characteristic of the one or more paired light emitting devices; and, circuitry configured to: drive the array; drive each of the one or more further light emitting devices under same conditions as light emitting devices of the array; temporarily drive each of the one or more paired light emitting devices under different conditions from the array; and, adjust driving of the array based on the optical characteristic and/or electrical characteristic of the one or more paired light emitting devices detected at sensor(s) when the one or more paired light emitting devices are driven under the different conditions.

Method, system and apparatus for dynamically monitoring and calibrating display tiles

Various embodiments include devices, methods, circuits, data structures, and software that allow for rapid variation in the luminance of an OLED display panel. An OLED display driver circuit can include a first input, a second input, and a scaling circuit. The first input is to receive a scaling factor. The second input is to receive an image input signal including a digital representation of a desired output for a pixel. The scaling circuit is to multiply a pixel-level output voltage associated with the desired output for the pixel by the scaling factor.

Method and system to quickly fade the luminance of an OLED display

These needs, and others, are met by at least one embodiment of the disclosed invention which provides for a touch sensitive screen for an electronic device wherein there is a sparse pattern of sensors disposed within the active area and a dense pattern of sensors disposed within the viewing area. In this configuration, the pixels in the active area may have a larger aspect ratio and provide a more pleasing image while the dense sensors disposed within the viewing area provide more accurate touch sensitivity. Further, the software, or other electronics, used to create the image, may be structured to position menus or other selectable images adjacent to the viewing area. Similarly, certain images, such as icons, can be programmed to be displayed directly under the sensors in the active area. Generally, this configuration provides for the best of both worlds; a bright, clear image with some touch sensitivity in the active area and a sensitive sensor grid in the viewing area where there are no pixels.

Touch-sensitive device

A dual mode apparatus for writing on paper, inputting information to a host electronic device, and/or controlling applications on a host electronic device. The apparatus is preferably constructed and arranged as a combination pen and active stylus that includes a pen refill cartridge and an active stylus module. The pen refill cartridge comprises a body configured for storing ink and a ball-point assembly for dispensing the ink on a writing surface or physical media. The active stylus module is configured to transmit signals to the ball-point assembly of the pen refill cartridge. The ball-point assembly may include an antenna, optical transducer or ultrasonic transducer. In one expedient, the signals may be radio signals characterizing a force applied to the ball-point assembly, the level of a battery or the level of ink in the pen refill cartridge.

Combination pen refill cartridge and active stylus

Applying quantum dots to surface features of an electronic device to augment or replace reflective and transmissive features. Applying quantum dots can yield more efficient illumination of those features and can permit use of diverse internal light sources to cause those features to emit any color of visible light. An electronic device, keyboard for same and method of applying features to areas of the exterior surface of an electronic device are provided. Quantum dots are applied to an area of the exterior surface that is illuminated by the device's internal light source. The quantum dots absorb incident light then emit predetermined longer wavelength light. The interior light may be a UV light, high energy light emitting diode, or back light. The quantum dots can be applied to exterior surfaces, buttons or key on electronic devices, mobile devices, and keyboards for mobile devices.

Quantum dots in electronic device exterior surface

An active stylus having a control circuit configured to wake up the stylus from a sleep mode to an active mode in response to pressure applied to a tip of the stylus. The stylus includes a force sensor electrically coupled to a power source, an operational amplifier, and a voltage level comparator, the voltage level comparator configured to output a digital wake up interrupt signal when pressure is applied to the tip when the control circuit is in the sleep mode. The operational amplifier is configured to provide an analog signal representative of varying pressure on the tip. This signal is processed by the control circuit such that the stylus goes into the sleep mode after a specified period of time following cessation of variations in the analog signal.

Active stylus force sensing mechanism for generating a wakeup interrupt to the controller

A method and apparatus providing an autofocus routine in a camera apparatus having a processor is disclosed. The camera apparatus is adapted to detect a number of images and communicate image signals representative thereof to the processor. The method includes determining that a degree of change between a first image signal and a second image signal is below a predetermined threshold and responsive thereto, performing the autofocus routine.

Method and apparatus for reducing continuous autofocus power consumption

A control circuit controls detection of both finger-based input and active-stylus-based input as input via a display. In particular, during a single scan period, the control circuit interleaves use of the finger-detection resources with use of the active-stylus-detection resources.

Method and apparatus pertaining to the interlacing of finger-based and active-stylus-based input detection

The disclosure provides a system and method for adjusting a backlight level for an image being displayed on an electronic device. The system comprises: a display for displaying an image to be backlit; memory storing a numeric representation of the image on a pixel-by-pixel basis; and a backlight adjustment module to calculate a pixel-by-pixel, running average of an intensity of the image using the numeric representation and to determine a backlight level for the image using the running average, the running average being calculated according to an equation that calculates a new average using a previous average and a current pixel intensity value to avoid an overflow condition when calculating the running average.

System and method for adjusting a backlight level by calculating a running average of pixel intensity for a display on an electronic device

Growing community of inventors

Waterloo, Canada

James Alexander Robinson